Integration as an Accumulation Process In Exercises 53-56, find the accumulation function F. Then evaluate F at each value of the independent variable and graphically. show the area given by each value of the independent variable. F ( x ) = ∫ 0 t ( 1 2 t 2 + 2 ) d t ( a ) F ( 0 ) ( b ) F ( 4 ) ( c ) F ( 6 )
Integration as an Accumulation Process In Exercises 53-56, find the accumulation function F. Then evaluate F at each value of the independent variable and graphically. show the area given by each value of the independent variable. F ( x ) = ∫ 0 t ( 1 2 t 2 + 2 ) d t ( a ) F ( 0 ) ( b ) F ( 4 ) ( c ) F ( 6 )
Solution Summary: The author explains how to calculate the accumulation function F and evaluate F at each value of the independent variable.
Integration as an Accumulation Process In Exercises 53-56, find the accumulation function F. Then evaluate F at each value of the independent variable and graphically. show the area given by each value of the independent variable.
F
(
x
)
=
∫
0
t
(
1
2
t
2
+
2
)
d
t
(
a
)
F
(
0
)
(
b
)
F
(
4
)
(
c
)
F
(
6
)
With differentiation, one of the major concepts of calculus. Integration involves the calculation of an integral, which is useful to find many quantities such as areas, volumes, and displacement.
According to Newton's law of universal gravitation, the force F between two bodies of constant mass
GmM
m and M is given by the formula F =
, where G is the gravitational constant and d is the
d²
distance between the bodies.
a. Suppose that G, m, and M are constants. Find the rate of change of force F with respect to
distance d.
F' (d)
2GmM
b. Find the rate of change of force F with gravitational constant G = 6.67 × 10-¹¹ Nm²/kg², on
two bodies 5 meters apart, each with a mass of 250 kilograms. Answer in scientific notation,
rounding to 2 decimal places.
-6.67x10
N/m syntax incomplete.
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